Method for producing DNA

ABSTRACT

DNA is produced by preparing oligomers having partial sequences selected according to a specific scheme based on a target nucleotide sequence, and performing PCR using two of single strand DNAs base-paired at their 3′ ends as primers and templates to prepare DNA, in a specific manner.

BACKGROUND OF THE INVENTION

[0001] The present invention relates to a method for producing DNA.

[0002] As methods for producing DNA, methods based on PCR, methods based on chemical synthesis reactions utilizing automatic synthesizers and so forth are known.

[0003] However, when production of DNA having an arbitrary nucleotide sequences is intended, a limitation that DNA having a desired nucleotide sequence should exist beforehand for use as a template, is imposed on the methods based on PCR. Further, in the methods based on chemical synthesis reactions, maximum length of practically producible DNA is limited and therefore production of DNA having a further longer length requires ligation reactions utilizing restriction enzymes and ligases, resulting in a limitation concerning the presence of restriction enzyme recognition sequences.

SUMMARY OF THE INVENTION

[0004] An object of the present invention is to provide a method for producing DNA having an arbitrary sequence, which is free from such limitations as mentioned above.

[0005] The inventor of the present invention found that DNA having an arbitrary nucleotide sequence can be synthesized without suffering from such limitations as described above by carrying out steps of preparing oligomers having partial sequences selected according to a specific scheme based on a target nucleotide sequence, and performing PCR using two of single strand DNAs base-paired at their 3′ ends as primers and templates to prepare DNA, in a specific manner. Thus, the present invention has been accomplished.

[0006] The present invention provides a method for producing DNA, which comprises the following steps (1) to (4) (also referred to as the “first production method of the present invention” hereinafter):

[0007] (1) dividing a target sequence which is a nucleotide sequence of DNA to be synthesized into 2N wherein N is a positive integer, of sections, designing partial sequences each containing a nucleotide sequence of each section and a part of a nucleotide sequence of an adjacent section or parts of nucleotide sequences of adjacent sections, wherein the part or parts have such a length that the nucleotide sequence of the each part can specifically make base-pairing with a nucleotide sequence complementary thereto, and preparing oligomers each having each of the 1st to Nth partial sequences from the 5′ end of the target sequence and oligomers each having a nucleotide sequence complementary to each of the (N+1)th to (2N)th partial sequences from the 5′ end of the target sequence,

[0008] (2) performing PCR by using an oligomer having the Nth partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (N+1)th partial sequence from the 5′ end of the target sequence under such a condition that these oligomers should act as primers and templates,

[0009] (3) sequencing synthesized DNAs and selecting DNA having a nucleotide sequence containing the Nth and (N+1)th partial sequences from the 5′ end of the target sequence, and

[0010] (4) repeating the following steps (4a) and (4b) for J wherein J is an integer, to be from 1 to N-1:

[0011] (4a) performing PCR by using the selected DNA, an oligomer having the (N−J)th partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (N+1+J)th partial sequence from the 5′ end of the target sequence under such a condition that the DNA and oligomers should act as primers and templates, and

[0012] (4b) sequencing synthesized DNAs and selecting DNA having a nucleotide sequence containing the (N−J)th to (N+1+J)th partial sequences.

[0013] The present invention further provides a method for producing DNA, which comprises the following steps (1) to (4) (also referred to as the “second production method of the present invention” hereinafter):

[0014] (1) dividing a target sequence which is a nucleotide sequence of DNA to be synthesized into 2^(n) wherein n is a positive integer, of sections, designing partial sequences each containing a nucleotide sequence of each section and a part of a nucleotide sequence of an adjacent section or parts of nucleotide sequences of adjacent sections, wherein the part or parts have such a length that the nucleotide sequence of each part can specifically make base-pairing with a nucleotide sequence complementary thereto, and preparing oligomers each having each of (odd number)th partial sequences from the 5′ end of the target sequence and oligomers each having a nucleotide sequence complementary to each of (even number)th partial sequences from the 5′ end of the target sequence,

[0015] (2) repeating the following step (2a) for j wherein j is an integer, to be from 1 to 2^(n−1) to produce 2^(n−1) of reaction products,

[0016] (2a) performing PCR by using an oligomer having the (2j−1)th partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (2j)th partial sequence from the 5′ end of the target sequence under such a condition that these oligomers should act as primers and templates,

[0017] (3) repeating the following step (3a) for i wherein i is an integer, to be from 2 to n:

[0018] (3a) repeating the following step (3ai) for k wherein k is an integer, to be from 1 to 2^(n−i) to produce 2^(n−i) of reaction products,

[0019] (3ai) mixing a reaction mixture containing DNA having the (2^(i)·(k−1)+1)th to (2^(i)·(k−½)th partial sequences from the 5′ end of the target sequence and a reaction mixture containing DNA having a sequence complementary to the (2^(i)·(k−½)+1)th to (2^(i)·k)th partial sequences from the 5′ end of the target sequence and performing PCR under such a condition that DNAs contained in the reaction mixtures should act as primers and templates, and

[0020] (4) separating DNAs having a length expected from the target sequence from the reaction mixture, and sequencing the separated double strand DNAs to select a double strand DNA having the target sequence.

[0021] In the second production method of the present invention, a ratio of the oligomers added to the reaction mixture or a ratio of the reaction mixtures to be mixed is preferably adjusted so that a single strand DNA required for a subsequent step should be synthesized in an amount larger than that of the other single strand DNA in the steps (2a) and (3ai).

[0022] According to the present invention, there are provided novel methods for producing DNA. According to the first production method of the present invention, there can be practically produced DNA having a length several times larger than the maximum length that can practically be produced by the chemical synthesis method. Further, since restriction enzyme treatment is not essential during the production, the limitation imposed on producible DNA sequence is ameliorated. In addition, in the second production method of the present invention, a cloning step is not included as an intermediate step, and because lengths of the reaction products are approximately doubled in each step, it becomes easy to select the final product. Because of these, rapid and efficient production can be realized.

BRIEF EXPLANATION OF THE DRAWINGS

[0023]FIG. 1 shows positional relationship of oligomers in an example of the first production method of the present invention.

[0024]FIG. 2 shows positional relationship of oligomers in an example of the second production method of the present invention and outline of the process.

[0025]FIG. 3 shows results of electrophoretic analysis of the PCR products obtained in Example 2 (Tube 1 to Tube 8) (photograph of an electrophoretic image).

DETAILED DESCRIPTION OF THE INVENTION

[0026] <First Production Method of the Present Invention>

[0027] The first production method of the present invention is characterized in that equal numbers of oligomers each having a partial sequence of a target sequence for about half of the 5′ end side of the target sequence and oligomers each having a sequence complementary to a partial sequence of a target sequence for about half of the 3′ end side of the target sequence are prepared so that the partial sequences should have overlaps with adjacent partial sequences, PCR is first performed by using the most internally located two oligomers as primers and templates, and then PCR is repeated by using a reaction product and oligomers located immediately outside the previous ones as primers and templates until the reaction product should have a length of the target sequence.

[0028] Each step of the first production method of the present invention will be explained.

[0029] In the step (1), a target sequence which is a nucleotide sequence of DNA to be synthesized is divided into 2N (N is a positive integer) of sections; partial sequences each containing a nucleotide sequence of each section and a part of a nucleotide sequence of an adjacent section or parts of nucleotide sequences of adjacent sections are designed, wherein the part or parts have such a length that the nucleotide sequence of the each part can specifically make base-pairing with a nucleotide sequence complementary thereto; and oligomers each having each of the 1st to Nth partial sequences from the 5′ end of the target sequence and oligomers each having a nucleotide sequence complementary to each of the (N+1)th to (2N)th partial sequences from the 5′ end of the target sequence are prepared. A terminal partial sequence has the part (overlap) only at the internal end, and an internal partial sequence has the parts at the both ends.

[0030] The oligomers having a partial sequence or a sequence complementary thereto designed in this step serve as primers and templates in PCR. Therefore, the term “specifically make base-pairing” means to specifically make base-pairing under the PCR conditions used in the steps (2) and (4a).

[0031] A longer partial sequence provides higher efficiency for middle steps. However, the maximum length of DNA practically synthesized by chemical synthesis is limited. Therefore, the length of the partial sequence is usually 150 nucleotides or less, and it is preferably 80-120 nucleotides, if yield, synthesis efficiency and so forth are taken into consideration. In theory, the length of the target sequence is not limited except for a case where the sequence contains repeating sequences. However, if it is taken into consideration that the target sequence is selected by sequence analysis, it is preferably a length that can be determined by once of sequence analysis, and it is usually 1000 nucleotides or less. The number of N is determined based on the lengths of the target sequence and partial sequences as well as overlapping lengths of nucleotide sequences of adjacent sections in the partial sequences.

[0032] The overlapping length of nucleotide sequences in partial sequences for adjacent sections may be a length sufficient for the specific base-pairing, and it is usually 17-40 nucleotides. The sequence of the overlap is selected so that, under the conditions of PCR, formation of primer dimers due to base-pairing at unintended position, intramolecular base-pairing of primer and so forth should be prevented and a suitable denaturation temperature (GC content) should be obtained, as is taken into consideration in the design of primer for usual PCR. All of the lengths of the partial sequences or the overlaps may not be in an equal length, and they may be suitably selected considering the target sequence and the above factors.

[0033] In the step (2), PCR is performed by using an oligomer having the Nth partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (N+1)th partial sequence from the 51 end of the target sequence under such a condition that these oligomers should act as primers and templates.

[0034] In PCR performed in this step, two kinds of oligomers serve as both of primers and templates, and primers and templates are not distinguished. That is, two kinds of oligomers are base-paired at their 3′ ends, and act as both of primers and templates during the extension of each strand.

[0035] That is, an oligomer having the Nth partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (N+1)th partial sequence from the 5′ end of the target sequence are added to a reaction mixture where extension reaction by DNA polymerase can be caused, and denaturation reaction, annealing reaction and extension reaction are repeated to synthesize DNA.

[0036] The conditions for PCR can be determined by considering factors similar to those of usual PCR.

[0037] A typical example of the PCR reaction mixture is a mixture containing 0.5 μM each of oligomers, 20 mM of Tris-HCl (pH 8.3 (25° C.)), 1.5 mM of MgCl₂, 0.05% of Tween 20, 100 μg/ml of gelatin or BSA, 50 μM each of dNTP and 0.02 units/μl of Taq DNA polymerase (concentrations are final concentrations). The thermal cycle for the reactions may consist of, for example, a cycle of 94-98° C. for 30 seconds to 1 minute for denaturation, 50-60° C. for 30 seconds to 1 minute for annealing, and 65-72° C. for 30 seconds to 1 minute for extension, which is repeated 20 to 30 times, and extension of the final extension reaction for 5 to 10 minutes. Before the cycle, the denaturation reaction may be performed for 2-5 minutes. The reaction is usually stopped by cooling the mixture to 4° C. and addition of EDTA (final concentration: 10 mM).

[0038] Concentration of dNTP is usually 0.1-0.5 μM. The concentration of dNTP is determined by considering yield of reaction products, specificity of base-pairing, accuracy of polymerization and so forth.

[0039] Magnesium concentration is usually 1.5-3.5 mM. The Mg²⁺ concentration is determined by considering EDTA concentration in the reaction mixture, annealing of primers, denaturation temperature of DNA, specificity of reaction, formation of primer dimer, enzyme activity, accuracy of polymerization and so forth.

[0040] Concentration of the primer (oligomer) is usually 0.1-0.5 μM. When the concentration is too high, the specificity of reaction may be reduced, and primer dimer and so forth may be formed.

[0041] While concentration of DNA polymerase may vary depending on the type of the polymerase, in case of Taq DNA polymerase, it is usually 1-4 units/100 μl. If the amount of the enzyme is too large, non-specific amplification may occur.

[0042] In the first cycle of PCR performed in this step, two kinds of oligomers base-paired at their 3′ ends serve as primers and templates, and in the second cycle and thereafter, DNA produced by the extension reaction may be involved in the reaction as a template. That is, there also may occur a reaction in which DNA produced by the extension reaction acts as a template and the oligomers as a whole act as only primer. Therefore, the denaturation conditions are usually determined so that sufficient denaturation of the DNA that can be a template should be obtained.

[0043] The conditions for annealing are determined by considering denaturation temperature, length and concentration of primer and so forth. The temperature is usually, for example, a temperature lower than the denaturation temperature of primer by about 5° C.

[0044] The conditions for extension are determined by considering the type of DNA polymerase to be used, length and amount of a portion desired to be extended and temperature. When Taq DNA polymerase is used as the DNA polymerase, the temperature may be its optimal temperature. Since DNA polymerase may be inactivated depending on the denaturation conditions, supplemental addition of DNA polymerase is also taken into consideration.

[0045] The above-described PCR can be performed by using widely used apparatuses and enzymes for PCR and so forth as they are.

[0046] Further, in such PCR as described above, since DNA used as a template is a single strand DNA, non-specific base-pairing and extension reaction may occur before the temperature reaches the first denaturation temperature, thereby causing non-specific amplification. In such a case, a technique called hot start method may be used, in which the reaction does not occur until the temperature reaches the first denaturation temperature, and it only occurs after the temperature reaches a predetermined temperature.

[0047] In the step (3), the synthesized DNAs are sequenced and DNA having a nucleotide sequence containing the Nth and (N+1)th partial sequences from the 5′ end of the target sequence is selected.

[0048] The sequencing of the synthesized DNAs can be performed in a conventional manner. For example, reaction products obtained in the step (2) are subjected to agarose gel electrophoresis, and DNAs having an expected length are extracted from the gel, cloned into a suitable vector, and sequenced. DNA containing the Nth and the (N+1)th partial sequences from the 5′ end of the target sequence may be selected and used in the form of the vector as a template in a subsequent reaction.

[0049] In the step (4), the following steps (4a) and (4b) are repeated for J (J is an integer) to be from 1 to N−1.

[0050] (4a) PCR is performed by using the selected DNA, an oligomer having the (N−J)th partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (N+1+J)th partial sequence from the 5′ end of the target sequence.

[0051] (4b) The synthesized DNAs are sequenced and DNA having a nucleotide sequence containing the (N−J)th to (N+1+J)th partial sequences is selected.

[0052] In PCR performed in the step (4a), each single strand of DNA and two kinds of oligomers serve as both of primers and templates, and primers and templates are not distinguished. That is, one single strand and one oligomer and the other single strand and the other oligomer are base-paired at their 3′ ends, respectively, and act as both of primers and templates during the extension of each strand.

[0053] That is, the selected DNA, an oligomer having the (N−J)th partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (N+1+J)th partial sequence from the 5′ end of the target sequence are added to a reaction mixture where extension reaction by DNA polymerase can be caused, and denaturation reaction, annealing reaction and extension reaction are repeated to synthesize DNA.

[0054] The step (4a) can be performed in the same manner as the step (2) except that a selected DNA is further contained and different oligomers are used. The conditions of PCR are determined by taking these differences into consideration. However, if the conditions for the step (2) are determined with taking the conditions of the step (4a) into consideration, it can be performed with the same conditions as the step (2).

[0055] The step (4b) may be performed in the same manner as the step (3).

[0056] Hereafter, the method will be explained with reference to an example where DNA having a nucleotide sequence of 630 nucleotides in length is produced.

[0057] The total length is divided into 10 sections (N=5), and partial sequences are determined with a partial sequence length of 90 nucleotides and an overlap length of 30 nucleotides (FIG. 1). Then, oligomers (U5 to U1) each having each of the first to fifth partial sequences from the 5′ end and oligomers (L1 to L5) each having a nucleotide sequence complementary to each of the sixth to tenth partial sequences are synthesized.

[0058] By using oligomers U1 and L1, PCR is performed with conditions of 94° C. for 2 minutes, subsequent repetition of a cycle of 98° C. for 30 seconds, 60° C. for 30 seconds and 68° C. for 1 minute for 30 times, and 68° C. for 10 minutes to synthesize DNA of 150 nucleotides. The obtained DNAs are sequenced, and DNA having an intended sequence is selected.

[0059] Then, the following steps (I) to (IV) are performed.

[0060] (I) PCR is performed under the same conditions as mentioned above by using the selected DNA and the oligomers U2 and L2 to synthesize DNA of 270 bp. The obtained DNAs are sequenced, and DNA having an intended sequence is selected.

[0061] (II) PCR is performed under the same conditions as mentioned above by using the selected DNA and the oligomers U3 and L3 to synthesize DNA of 390 bp. The obtained DNAs are sequenced, and DNA having an intended sequence is selected.

[0062] (III) PCR is performed under the same conditions as mentioned above by using the selected DNA and the oligomers U4 and L4 to synthesize DNA of 510 bp. The obtained DNAs are sequenced, and DNA having an intended sequence is selected.

[0063] (IV) PCR is performed under the same conditions as mentioned above by using the selected DNA and the oligomers U5 and L5 to synthesize DNA of 630 bp. The obtained DNAs are sequenced, and DNA having an intended sequence is selected.

[0064] In this way, by ligating DNAs obtained through a chemical synthesis method, there can be produced DNA several times longer than the maximum length that can be practically obtained by the chemical synthesis method. And since restriction enzyme treatment is not essential for this method as middle steps, DNA having an arbitrary sequence can be produced.

[0065] <Second Production Method of the Present Invention>

[0066] The second production method of the present invention is characterized in that equal numbers of oligomers each having a partial sequence of a target sequence and oligomers each having a sequence complementary to a partial sequence of a target sequence are prepared, wherein the former and latter partial sequences are in an alternate positional relationship, so that the partial sequences should have overlaps with adjacent partial sequences; PCR is first performed by using each pair of adjacent oligomers as primers and templates; and then PCR is repeated by using each pair of adjacent reaction products as primers and templates until a reaction product should have a length of the target sequence.

[0067] Each step of the second production method of the present invention will be explained.

[0068] In the step (1), a target sequence which is a nucleotide sequence of DNA to be synthesized is divided into 2^(n) (n is a positive integer) of sections; partial sequences each containing a nucleotide sequence of each section and a part of a nucleotide sequence of an adjacent section or parts of nucleotide sequences of adjacent sections are designed, wherein the part or parts have such a length that the nucleotide sequence of each part can specifically make base-pairing with a nucleotide sequence complementary thereto; and oligomers each having each of (odd number)th partial sequences from the 5′ end of the target sequence and oligomers each having a nucleotide sequence complementary to each of (even number)th partial sequences from the 5′ end of the target sequence are prepared. A terminal partial sequence has the part (overlap) only at the internal end, and an internal partial sequence has the parts at the both ends.

[0069] The oligomers having a partial sequence or a sequence complementary thereto determined in this step are used as primers and templates in PCR. Therefore, the term “specifically make base-pairing” means to specifically make base-pairing under the PCR conditions used in the steps (2a) and (3ai).

[0070] Length of the partial sequence may be a length of DNA that can practically produced by chemical synthesis, and it is usually 80-120 nucleotides. The number of n is determined based on this length, the length of the target sequence, accuracy of polymerization and so forth, and it is usually 2-4. If it exceeds this range, it may become likely that mutations are introduced, and thus it may become unlikely that a target sequence can be obtained.

[0071] The overlapping length of nucleotide sequences of adjacent sections in the partial sequences may be a length sufficient for the specific base-pairing, and it is usually 17-40 nucleotides. The sequence of the overlap is selected so that, under the conditions of PCR, formation of primer dimers due to base-pairing at unintended position, intramolecular base-pairing of primer and so forth should be prevented and a suitable denaturation temperature (GC content) should be obtained, as is taken into consideration in the design of primer for usual PCR. All of the lengths of the partial sequences or the overlaps may not be in an equal length, and they may be suitably selected considering the target sequence and the above factors. For example, since the length of DNA serving as a primer and a template becomes longer as the reaction steps proceed, the length of the overlap may be changed taking it into consideration.

[0072] In the step (2), the following step (2a) is repeated for j (j is an integer) to be from 1 to 2^(n−1) to produce 2^(n−1) of reaction products.

[0073] (2a) PCR is performed by using an oligomer having the (2j−1)th partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (2j)th partial sequence from the 5′ end of the target sequence under such a condition that these oligomers should act as primers and templates.

[0074] The step (2a) can be performed in the same manner as the step (2) of the first production method of the present invention. However, the conditions are preferably determined by considering the DNA used in the step (3ai) as primers and templates. Further, EDTA is not added to stop the reaction.

[0075] In the step (3), the following step (3a) is repeated for i (i is an integer) to be from 2 to n.

[0076] (3a) The following step (3ai) is repeated for k (k is an integer) to be from 1 to 2^(n−i) to produce 2^(n−i) of reaction products.

[0077] (3ai) A reaction mixture containing DNA having the (2^(i)·(k−1)+1)th to (2^(i)·(k−½)th partial sequences from the 5′ end of the target sequence and a reaction mixture containing DNA having a sequence complementary to the 2^(i)·(k−½)+1)th to 2^(i)·k)th partial sequences from the 5′ end of the target sequence are mixed and PCR is performed under such a condition that DNAs contained in the reaction mixtures should act as primers and templates.

[0078] In the step (3ai), reaction mixtures obtained in a preceding step are mixed to perform PCR. While the reaction conditions for denaturation, annealing, and extension may be the same as those of the step (2a), conditions for a part or all of denaturation, annealing, and extension may be changed depending on the extended length of DNA that serves as primers and templates. Further, depending on the conditions of PCR, other reagents such as DNA polymerase may be added upon mixing of the reaction mixtures.

[0079] In the step (4), DNAs having a length expected from the target sequence are separated, and the separated double-strand DNAs are sequenced to select a double-strand DNA having the target sequence.

[0080] The separation and sequencing of DNA in the step (4) may be performed in the same manner as the step (3) of the first production method of the present invention.

[0081] Hereafter, the method will be explained with reference to an example where DNA having a nucleotide sequence of 500 nucleotides in length is produced.

[0082] As shown in the frame in FIG. 2, eight (n=3) of oligomers (length: 90 nucleotides), Aa1, Aa2, Ab1, Ab2, Ba1, Ba2, Bb1 and Bb2, are prepared. They are designed so that Aa1 and Aa2, Ab1 and Ab2, Ba1 and Ba2, Bb1 and Bb2, Aa2 and Ab1, and Ba2 and Bb1 should overlap for 30 nucleotides, respectively, and Ab2 and Ba1 should overlap for 40 nucleotides.

[0083] First, reaction mixtures containing Aa1 and Aa2, Ab1 and Ab2, Ba1 and Ba2, and Bb1 and Bb2, respectively, are prepared, and PCR is performed for each mixture. After the reaction, the reaction mixture of Aa and the reaction mixture of Ab, and the reaction mixture of Ba and the reaction mixture of Bb are mixed respectively, and PCR is performed for each mixture. After the second reaction, the reaction mixtures obtained after the second reaction are mixed, and PCR is performed. The obtained reaction products are subjected to agarose gel electrophoresis, and DNAs having an expected length are extracted from the gel, cloned into a suitable vector, and sequenced to select a clone of the target sequence.

[0084] In the second production method of the present invention, a further longer DNA can be synthesized by increasing the number of steps of the mixing of reaction-products. However, it becomes likely that mutations are introduced, and thus it becomes unlikely that DNA having a target sequence can be obtained. By sequencing DNA of about 500 nucleotides once when it is synthesized, and by using it according to other methods, a further longer final product can be produced.

[0085] By the second production method of the present invention, DNA having an arbitrary sequence can also be produced, because restriction enzyme treatment is not essential for this method as middle steps like the first production method of the present invention.

[0086] Uncompleted oligomers such as those having a shorter 5′-end-side sequence due to stop of the reaction in their synthesis cycle are not likely to be involved in a reaction in a subsequent step, because they have only a short or no portion for annealing, and thus it is unlikely that clones having deletion should be synthesized. Therefore, the oligomers can be used even with a low purification degree.

[0087] Since the length of the reaction product is approximately doubled in every step, the final reaction product shows significant difference in length with respect to other products (e.g., those undergone only reactions of previous steps), and hence it can be easily collected from the gel.

[0088] In the second production method of the present invention, a ratio of the oligomers added to the reaction mixture or a ratio of reaction mixtures are preferably adjusted so that a single strand DNA required for a subsequent step should be synthesized in an amount larger than that of the other single strand DNA in the steps (2a) and (3ai).

[0089] A single strand DNA required for a subsequent step is synthesized in an amount larger than that of the other single strand DNA by changing the ratio of the initial amounts of oligomers and the ratios of amounts of the reaction mixtures mixed except for the last mixing of the reaction mixtures, as in the asymmetric PCR (e.g., 1:2-1:9).

[0090] A case where the ratio is 1:4 will be explained with reference to FIG. 2. PCR is performed by adding Aa1 and Aa2 in an amount ratio of 4:1, Ab1 and Ab2 in a ratio of 1:4, Ba1 and Ba2 in a ratio of 4:1, and Bb1 and Bb2 in a ratio of 1:4 to a reaction mixture (Ba1 and Ba2, and Bb1 and Bb2 are not shown in the figure). Then, PCR is performed by mixing the reaction mixture of Aa1 and Aa2 and the reaction mixture of Ab1 and Ab2 in a ratio of 4:1. PCR is also performed by mixing the reaction mixture of Ba1 and Ba2 and the reaction mixture of Bb1 and Bb2 in a ratio of 1:4 (not shown in the figure). Subsequently, PCR is performed by mixing the reaction mixture of Aa1 to Ab2 and the reaction mixture of Ba1 to Bb2 in a ratio of 1:1. The obtained reaction products are subjected to agarose gel electrophoresis, and DNAs having an expected length are extracted from the gel, cloned into a suitable vector, and sequenced to select a clone of the target sequence.

[0091] In the second production method of the present invention, the 3′ end portion not required to be extended may be modified so that it should not be extended to improve the synthesis efficiency of the target product. While examples of such modification of 3′ end include amination, biotinylation, digoxigenylation and so forth, amination that is a small modification in terms of the molecular size is preferred in order not to affect Tm so much.

[0092] In the second production method of the present invention, primers of about 20-mer may be designed for the both ends of the synthesized final product and PCR may be performed by using this final product as a template. In this way, the amount of the final product obtained in a small amount may be increased, and products having deletion at the one or both ends may be excluded.

EXAMPLES

[0093] Hereafter, the present invention will be explained with reference to the following examples.

Example 1

[0094] In order to synthesize DNA having the nucleotide sequence shown in SEQ ID NO: 1 (target sequence), the target sequence was divided into ten sections, and partial sequences of the target sequence were designed with a length of 90 nucleotides and overlap of adjacent sections of 30 nucleotides. Further, oligomers each having each of the partial sequences of the target sequence (U1 to U5) and oligomers each having a sequence complementary to each of the partial sequences of the target sequence (L1 to L5) were synthesized. The nucleotide sequences of U1 to U5 and L1 to L5 are shown in SEQ ID NOS: 2-11, respectively. The positional relationship of U1 to U5 and L1 to L5 is shown in FIG. 1.

[0095] For reaction, 25 μl of a reaction mixture containing 0.4 μM each of U1 and L1, 40 mM of Tricine-KOH (pH 9.2 at 25° C.), 15 mM of potassium acetate (KOAc), 1.5 mM of magnesium acetate (Mg(OAc)₂), 75 μg/ml of bovine serum albumin (BSA) and 0.2 mM each of dNTP and 0.5 μl of Advantage KlenTaq Polymerase Mix was prepared by using a PCR kit produced by Clontech Co., Advantage cDNA PCR Kit.

[0096] The reaction was performed under the following conditions.

[0097] The reaction mixture was kept at 94° C. for 2 minutes, and then subjected to a cycle of denaturation reaction at 98° C. for 30 seconds, annealing reaction at 60° C. for 30 seconds and extension reaction at 68° C. for 1 minute, which was repeated 30 times, and then final extension reaction was extended for 10 minutes. The reaction was stopped by cooling the reaction mixture to 4° C.

[0098] The obtained reaction product was separated by agarose gel electrophoresis, and fragments having a length expected from the nucleotide sequences of U1 and L1 were extracted from the gel and purified. The obtained fragments were directly cloned by using a vector kit for TA cloning, PGEM-T Vector System (Promega).

[0099] Inserted sequences were determined for a part of the obtained clones. As a result, clones having the nucleotide sequences shown in Table 1 were obtained. In Table 1, the target sequence is shown in the top line. The parenthesized numbers indicate designations of the clones, and a designation to which “*” is appended on the right side indicates a clone having a target sequence.

[0100] The clone having the target sequence was used for the subsequent reaction. The same reaction mixture as mentioned above except that it contained about 5 ng of this plasmid and U2 and L2 instead of U1 and L1 was prepared, and a reaction product was obtained with the same reaction conditions as those mentioned above.

[0101] The obtained reaction product was separated by agarose gel electrophoresis, and fragments having a length expected from the nucleotide sequences of U1, U2, L1 and L2 were extracted from the gel and purified. The obtained fragments were directly cloned by using a vector kit for TA cloning, pGEM-T Vector System (Promega).

[0102] Inserted sequences were determined for a part of the obtained clones. As a result, clones having the nucleotide sequences shown in Table 2 were obtained. In Table 2, the target sequence is shown in the top line. The parenthesized numbers indicate designations of the clones, and a designation to which “*” is appended on the right side indicates a clone having a target sequence.

[0103] The clone having the target sequence was used for the subsequent reaction. The same reaction mixture as mentioned above was prepared except that it contained about 5 ng of this plasmid and U3 and L3 instead of U1 and L1, and a reaction product was obtained with the same reaction conditions as those mentioned above.

[0104] The obtained reaction product was separated by agarose gel electrophoresis, and fragments having a length expected from the nucleotide sequences of U1 to U3 and L1 to L3 were extracted from the gel and purified. The obtained fragments were directly cloned by using a vector kit for TA cloning, pGEM-T Vector System (Promega).

[0105] Inserted sequences were determined for a part of the obtained clones. As a result, clones having the nucleotide sequences shown in Table 3 were obtained. In Table 3, the target sequence is shown in the top line. The parenthesized numbers indicate designations of the clones, and a designation to which “*” is added on the right side indicates a clone having a target sequence.

[0106] The clone having the target sequence was used for the subsequent reaction. The same reaction mixture as mentioned above was prepared except that it contained about 5 ng of this plasmid, and U4 and L4 instead of U1 and L1, and a reaction product was obtained with the same reaction conditions as those mentioned above.

[0107] The obtained reaction product was separated by agarose gel electrophoresis, and fragments having a length expected from the nucleotide sequences of U1 to U4 and L1 to L4 were extracted from the gel and purified. The obtained fragments were directly cloned by using a vector kit for TA cloning, pGEM-T Vector System (Promega).

[0108] Inserted sequences were determined for a part of the obtained clones. As a result, clones having the nucleotide sequences shown in Table 4 were obtained. In Table 4, the target sequence is shown in the top line. The parenthesized numbers indicate designations of the clones, and a designation to which “*” is appended on the right side indicates a clone having a target sequence.

[0109] The clone having the target sequence was used for the subsequent reaction. The same reaction mixture as mentioned above was prepared except that it contained about 5 ng of this plasmid, and U5 and L5 instead of U1 and L1, and a reaction product was obtained with the same reaction conditions as those mentioned above.

[0110] The obtained reaction product was separated by agarose gel electrophoresis, and fragments having a length expected from the nucleotide sequences of U1 to U5 and L1 to L5 were extracted from the gel and purified. The obtained fragments were directly cloned by using a vector kit for TA cloning, PGEM-T vector System (Promega).

[0111] Inserted sequences were determined for a part of the obtained clones. As a result, clones having the nucleotide sequences shown in Table 5 were obtained. In Table 5, the target sequence is shown in the top line. The parenthesized numbers indicate designations of the clones, and a designation to which “*” is appended on the right side indicates a clone having a target sequence.

[0112] In this way, DNA having a target sequence could be produced. TABLE 1 10 20 30 40  50 U1L1 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(01) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(02) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TAGGCACGTT GGGACAGAAA  50 U1L1(03) 1 AAGATCCTT- --------- --------- --------- ---------  50 U1L1(04) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGACA  50 U1L1(06) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(07)* 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(08)* 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(09) 1 AAGATCCCTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(10) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(11) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(12) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(13) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(14)* 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(15) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(18) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(19) 1 AAGATCCTTC TTATTCCCAA CCCAGGATGA TGGGCACGTT GGGAGAGAAA  50 U1L1(20) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(21) 1 AAGATCCTTC TTATTCCCAA -CCAGCATGA TGGGCACGTT GGGACAGAAA  50 U1L1(23) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(24)* 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(25) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(26) 1 AAGATCCTTC TTATTCC-AA -CCAGGAT-- -GGGCACGTT GGGACAGAAA  50 U1L1(27) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA -GGGCACGTT GGGACAGAAA  50 U1L1(28) 1 AAGATCCTTC TTATTCCCAA ACCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(29) 1 AAGATCCTT- TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(30)* 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(31) 1 AAGATCCTTC TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(32) 1 ---------- ---------- --------- --------- -------AAA  50 U1L1(33) 1 AAGATCCTTC TTATTCCCAA --------- --------- ----CCAGGA  50 U1L1(34) 1 AAGA-CCT-C TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 U1L1(35) 1 AAGATCCTTC TTATTCC-AA -CCAG----- --------- ----------  50 U1L1(36) 1 AAGATCCTT- TTATTCCCAA -CCAGGATGA TGGGCACGTT GGGACAGAAA  50 60 70 80 90 100 U1L1 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(01) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GAT------- ---------- 100 U1L1(02) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(03) 51 ---------- ------TCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(04) 51 TGCTTGACTT ATGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(06) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(07)* 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(08)* 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(09) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(10) 51 TGCTTGACTT CTGGGGTC-- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(11) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(12) 51 TGCTT----- CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(13) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTAT--- 100 U1L1(14)* 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(15) 51 TGCTTGACTT CTGGGGTCCC ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(18) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(19) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(20) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(21) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(23) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(24)* 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(25) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(26) 51 TGCTTGACTT CTGGGGTGC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(27) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(28) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(29) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(30)* 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(31) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(32) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(33) 51 -GCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(34) 51 TGCTTGACTT CTGGGGTC-- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(35) 51 ------ACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 U1L1(36) 51 TGCTTGACTT CTGGGGTCC- ACTTTTCTGG GATGTTTTCT AAACTATCAG 100 110 120 130 140 150 U1L1 101 GGCTGTCGAT GGAAAAACAC -ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(01) 101 ---------- --------AC -ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(02) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(03) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(04) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(06) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAG-- 150 U1L1(07)* 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(08)* 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(09) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(10) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(11) 101 GGC------- ---------- ---------- ---------- ---------- 150 U1L1(12) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(13) 101 ---------- -----AACAC- ATCAGTATA ACATC----- --------GA 150 U1L1(14)* 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(15) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(18) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ---------- --------GA 150 U1L1(19) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(20) 101 GGCTGTCGAT GGTAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(21) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(23) 101 GGCTGTCGAG GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(24)* 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(25) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGT-T CTGGGTAGGA 150 U1L1(26) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGATAGGA 150 U1L1(27) 101 GGCTGTCGAT GGAAAAACAC- AGCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(28) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(29) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(30)* 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(31) 101 GGCTGTCGAT GGAAAAACACC ATCAGTATA ACATCGGTAT GTGGGTAGGA 150 U1L1(32) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(33) 101 GGCTGTCGAT GGAAAAA---- --------- ---------- -------GGA 150 U1L1(34) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(35) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 U1L1(36) 101 GGCTGTCGAT GGAAAAACAC- ATCAGTATA ACATCGGTAT CTGGGTAGGA 150 160 170 180 190 200 U1L1 151 GAG....... .......... .......... .......... .......... 200 U1L1(01) 151 GAG....... .......... .......... .......... .......... 200 U1L1(02) 151 GAG....... .......... .......... .......... .......... 200 U1L1(03) 151 GAG....... .......... .......... .......... .......... 200 U1L1(04) 151 GAG....... .......... .......... .......... .......... 200 U1L1(06) 151 ---....... .......... .......... .......... .......... 200 U1L1(07)* 151 GAG....... .......... .......... .......... .......... 200 U1L1(08)* 151 GAG....... .......... .......... .......... .......... 200 U1L1(09) 151 GAG....... .......... .......... .......... .......... 200 U1L1(10) 151 GAG....... .......... .......... .......... .......... 200 U1L1(11) 151 GAG....... .......... .......... .......... .......... 200 U1L1(12) 151 GAG....... .......... .......... .......... .......... 200 U1L1(13) 151 GAG....... .......... .......... .......... .......... 200 U1L1(14)* 151 GAG....... .......... .......... .......... .......... 200 U1L1(15) 151 GAG....... .......... .......... .......... .......... 200 U1L1(18) 151 GAG....... .......... .......... .......... .......... 200 U1L1(19) 151 GAG....... .......... .......... .......... .......... 200 U1L1(20) 151 GAG....... .......... .......... .......... .......... 200 U1L1(21) 151 GAG....... .......... .......... .......... .......... 200 U1L1(23) 151 GAG....... .......... .......... .......... .......... 200 U1L1(24)* 151 GAG....... .......... .......... .......... .......... 200 U1L1(25) 151 GAG....... .......... .......... .......... .......... 200 U1L1(26) 151 GAG....... .......... .......... .......... .......... 200 U1L1(27) 151 GAG....... .......... .......... .......... .......... 200 U1L1(28) 151 GAG....... .......... .......... .......... .......... 200 U1L1(29) 151 GAG....... .......... .......... .......... .......... 200 U1L1(30)* 151 GAG....... .......... .......... .......... .......... 200 U1L1(31) 151 GAG....... .......... .......... .......... .......... 200 U1L1(32) 151 GAG....... .......... .......... .......... .......... 200 U1L1(33) 151 GAG....... .......... .......... .......... .......... 200 U1L1(34) 151 GAG....... .......... .......... .......... .......... 200 U1L1(35) 151 GAG....... .......... .......... .......... .......... 200 U1L1(36) 151 GAG....... .......... .......... .......... .......... 200

[0113] TABLE 2 10 20 30 40  50 U2L2 1 AGGTTTCACC GGCTCCTGCT TGATCTTGGC TAGCTCCCGC CTTGT-GTGC  50 U2L2(02) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(05) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(10) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(12) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(13) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(15) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(16) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(17) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(18) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(01) 1 AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC CTTGT-GTGC  50 U2L2(03) 1 AGGTTTCACC GGGTCCTGCT TCATCTTGGC TAGCTCCCGC CTTGT-G-GC  50 U2L2(04) 1 AGGTTTCACC GGCTCCTGGT TCATCTTGGG TAGCTCCCGC CTTGT-GTGC  50 U2L2(06) 1 AGGTTTCAGG GGCTCGTGCT TGATCTTGGC TAGGTCCCGC CTTGT-GTGC  50 U2L2(07) 1 ---------- ---------- ---------- ---------- ----------  50 U2L2(08) 1 AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC CTTGT-GTGC  50 U2L2(09)* 1 AGGTTTCACC GGCTCCTGGT TCATCTTGGC TAGCTCCCGC CTTGT-GTGC  50 U2L2(11) 1 AGGTTTGACC GGCTCGTGCT TCATCTTGGC TAGCTCCCGC CTTGT-GTGC  50 U2L2(14) 1 AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC CTTGTTGTGC  50 U2L2(19) 1 AGGTTTCACC GGCTCCTTCT T--------- ---------- ----------  50 U2L2(20) 1 ---------- ---------- ---------- ---------- -------TGC  50 U2L2(22) 1 AGGTTTCAGC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC CTTGT-GTGC  50 U2L2(23) 1 AGGTTTCAGC G-CTCCTGCT TCATCTTGGC TAGCTGCCGC CTTGT-GTGC  50 U2L2(24) 1 AGGTTTCACC GGCTCGTGCT TCATCTTGGC TAGGTCCCGC CTTGT-GTGC  50 60 70 80 90 100 U2L2 51 TCATCATTCC GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(02) 51 ---------- -AAGATCCTT CTTATTCCGA ACCAGGATGA TGGGCACGTT 100 U2L2(05) 51 ---------- -AAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(10) 51 ---------- -AAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(12) 51 ---------- -AAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(13) 51 ---------- -AAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(15) 51 ---------- -AAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(16) 51 ---------- -AAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(17) 51 ---------- -AAGATCCTT CTTATTCCCA AGCAGGATGA TGGGCACGTT 100 U2L2(18) 51 ---------- -AAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCAGGTT 100 U2L2(01) 51 TCATCATTCC GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(03) 51 TCATCATTCC GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(04) 51 TCATCATTCC GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGGACGTT 100 U2L2(06) 51 TCATCATTCG GAAGATCCTT CTTATTCGCA AC-AGGATGA TGGGCACGTT 100 U2L2(07) 51 ---------- ----ATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(08) 51 TCATCATTCC GCAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(09)* 51 TCATCATTCC GAAGATCCTT CTTATTGCCA ACCAGGATGA TGGGCACGTT 100 U2L2(11) 51 TCATCATTCC GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(14) 51 TCATCATTCC GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCAGGTT 100 U2L2(19) 51 ---------- ---------- ---ATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(20) 51 TCATCATTCC GAAGATCCTT GTTATTCCCA ACCAGGATGA TGGGGACGTT 100 U2L2(22) 51 TCATCATTCT GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(23) 51 TCATCATTCC GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 U2L2(24) 51 TCATCATTCC GAAGATCCTT CTTATTCCCA ACCAGGATGA TGGGCACGTT 100 110 120 130 140 150 U2L2 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(02) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(05) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(10) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(12) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(13) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(15) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(16) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(17) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(18) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(01) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(03) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(04) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTGTGGG ATGTTTTCTA 150 U2L2(06) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(07) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(08) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(09)* 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(11) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(14) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(19) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(20) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(22) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(23) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 U2L2(24) 101 GGGACAGAAA TGCTTGACTT CTGGGGTCCA CTTTTCTGGG ATGTTTTCTA 150 160 170 180 190 200 U2L2 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(02) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(05) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(10) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(12) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(13) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(15) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(16) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(17) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(18) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(01) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(03) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(04) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(06) 151 AACTATCAGG GCGGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(07) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(08) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(09)* 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(11) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCG 200 U2L2(14) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(19) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(20) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(22) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(23) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 U2L2(24) 151 AACTATCAGG GCTGTCGATG GAAAAACACA TCAGTATAAC ATCGGTATCT 200 210 220 230 240 2 50 U2L2 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(02) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(05) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(10) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(12) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(13) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(15) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(16) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(17) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(18) 201 GGGTAGGAGA G--------- ---------- ---------- ---------- 2 50 U2L2(01) 201 GGGTAGGAGA GGGGCC.... .......... .......... .......... 2 50 U2L2(03) 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(04) 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGGGTC 2 50 U2L2(06) 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(07) 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(08) 201 GGGTAGGAGA GGGGCCTCAG GCGATCACAA TCTTCCTGCC CAGCTGTGTC 2 50 2L2(09)* 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(11) 201 GGGTAGGAGA GGGACCTCAG GCGATCATAA ACTT------ ---------- 2 50 U2L2(14) 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(19) 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(20) 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(22) 201 GGGTAGGAGA GGGGCCTCAG GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(23) 201 GGGTAGGAGA GGGGCCTCAA GCGATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 U2L2(24) 201 GGGTAGGAGA GGGGCCGCAC G-GATCATAA TCTTCCTGCC CAGCTGTGTC 2 50 260 270 280 290 300 U2L2 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(02) 251 ---------- ---------- -......... .......... .......... 300 U2L2(05) 251 ---------- ---------- -......... .......... .......... 300 U2L2(10) 251 ---------- ---------- -......... .......... .......... 300 U2L2(12) 251 ---------- ---------- -......... .......... .......... 300 U2L2(13) 251 ---------- ---------- -......... .......... .......... 3oo U2L2(15) 251 ---------- ---------- -......... .......... .......... 300 U2L2(16) 251 ---------- ---------- -......... .......... .......... 300 U2L2(17) 251 ---------- ---------- -......... .......... .......... 300 U2L2(18) 251 ---------- ---------- -......... .......... .......... 300 U2L2(01) 251 .......... .......... .......... .......... .......... 300 U2L2(03) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(04) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(06) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(07) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(08) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(09)* 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(11) 251 ---------- -ACTCTACCT G......... .......... .......... 300 U2L2(14) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(19) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(20) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(22) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(23) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300 U2L2(24) 251 CCACAAAGCC AACTCTACCT G......... .......... .......... 300

[0114] TABLE 3 10 20 30 40  50 U3L3 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(02) 1 ---------- ---------- ---------- ---------- ----------  50 U3L3(04) 1 ---------- ---------- ---------- ---------- ----------  50 U3L3(23) 1 ---------- ---------- ---------- ---------- ----------  50 U3L3(29) 1 ---------- ---------- ---------- ---------- ----------  50 U3L3(01) 1 ---------- ---------- -AAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(03) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATA----  50 U3L3(05) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(06)* 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(07) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(09) 1 ---------- ---------- ---------- -------TTT GCCATATCTC  50 U3L3(10)* 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(11) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(12)* 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(13) 1 TGCTGAAC-C TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(14) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(15) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(16) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(17) 1 TGCTGAACAC TC-ATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(18) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT ACCATATCTC  50 U3L3(19) 1 ---------- ---------- ---------- ---------- ----------  50 U3L3(20) 1 ---------- ---------- ------CGCC AATCCTGTTT GCCATATCTC  50 U3L3(21) 1 ---------- ---------- ----AGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(22) 1 ---------- ---------- ---------- ---------- ----------  50 U3L3(24) 1 ---------C TCC-TG-ACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(25) 1 ---------- ---------- ---------- ---------- ----------  50 U3L3(26) 1 --CTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 U3L3(28) 1 TGCTGAACAC TCCATGTACC CAAAAGCGCC AATCCTGTTT GCCATATCTC  50 60 70 80 90 100 U3L3 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(02) 51 ---------- AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(04) 51 ---------- AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(23) 51 ---------- AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(29) 51 ---------- AGGTTTCACC GGCTCGTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(01) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(03) 51 ---CTTCTTC AGGTTTCACT GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(05) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCGTGGC TAGCTCCCGC 100 U3L3(06)* 51 TGCCTTCTTC AGGTTTCACG GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(07) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(09) 51 TGCCTTCT-C AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(10)* 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(11) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(12)* 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(13) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATGTTGGC TAGCTCCCGC 100 U3L3(14) 51 TGCTGTGTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(15) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(16) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTGCCGC 100 U3L3(17) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(18) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(19) 51 ---------- --GTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(20) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TTGCTCCCGC 100 U3L3(21) 51 TGCCTTCTTC AGGTTT-ACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(22) 51 ---------- --GTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(24) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(25) 51 ---------- -GGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(26) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 U3L3(28) 51 TGCCTTCTTC AGGTTTCACC GGCTCCTGCT TCATCTTGGC TAGCTCCCGC 100 110 120 130 140 150 U3L3 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(02) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(04) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(23) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(29) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(01) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(03) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(05) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(06)* 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(07) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(09) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(10)* 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(11) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(12)* 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(13) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(14) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(15) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(16) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(17) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(18) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(19) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(20) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(21) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(22) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(24) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(25) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(26) 101 CTTGTGTGCT CATCATTCCG AAGATCCTTC TTATTCCCAA CCAGGATGAT 150 U3L3(28) 101 CTTGTGTGCT CATCATTCCG AGGATCCTTC TTATTCCCAA CCAGGATGAT 150 160 170 180 190 200 U3L3 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGT3GTCCAC TTTTCTGGGA 200 U3L3(02) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(04) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(23) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTGTGGGA 200 U3L3(29) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(01) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(03) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(05) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(06)* 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(07) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(09) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(10)* 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(11) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(12)* 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(13) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(14) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(15) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(16) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(17) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(18) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(19) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(20) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(21) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(22) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(24) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(25) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTGTGGGA 200 U3L3(26) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 U3L3(28) 151 GGGCACGTTG GGACAGAAAT GCTTGACTTC TGGGGTCCAC TTTTCTGGGA 200 210 220 230 240 2 50 U3L3 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(02) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(04) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(23) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(29) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(01) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(03) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(05) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(06)* 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(07) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(09) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(10)* 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(11) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(12)* 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(13) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(14) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(15) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(16) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(17) 201 TGTTTTGTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(18) 201 TGTTTTCTAA ACTATCAQGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(19) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(20) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(21) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGAATAACA 2 50 U3L3(22) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(24) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(25) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(26) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 U3L3(28) 201 TGTTTTCTAA ACTATCAGGG CTGTCGATGG AAAAACACAT CAGTATAACA 2 50 260 270 280 290 300 U3L3 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(02) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(04) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG GGATCATAAT CTTCCTGCCC 300 U3L3(23) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(29) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(01) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(03) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(05) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(06)* 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(07) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(09) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(10)* 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(11) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(12)* 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(13) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(14) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(15) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(16) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(17) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(18) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(19) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(20) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(21) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(22) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(24) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(25) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(26) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 U3L3(28) 251 TCGGTATCTG GGTAGGAGAG GGGCCTCAGG CGATCATAAT CTTCCTGCCC 300 310 320 330 340 3 50 U3L3 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(02) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG ---------- ----------- 3 50 U3L3(04) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG ---------- ----------- 3 50 U3L3(23) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG ---------- ----------- 3 50 U3L3(29) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG ---------- ----------- 3 50 U3L3(01) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(03) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(05) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(06)* 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(07) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(09) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(10)* 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(11) 301 AGCTGTGTCC CACAAAGCCA ACTCTACTTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(12)* 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(13) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(14) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(15) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(16) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(17) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(18) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(19) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(20) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(21) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTGCATCC ACCTCGATAT 3 50 U3L3(22) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(24) 301 AGCTGTGGCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(25) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(26) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 U3L3(28) 301 AGCTGTGTCC CACAAAGCCA ACTCTACCTG CTTTCCATCC ACCTCGATAT 3 50 360 370 380 390 400 U3L3 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(02) 351 ---------- ---------- ---------- ---------- --........ 400 U3L3(04) 351 ---------- ---------- ---------- ---------- --........ 400 U3L3(23) 351 ---------- ---------- ---------- ---------- --........ 400 U3L3(29) 351 ---------- ---------- ---------- ---------- --........ 400 U3L3(01) 351 CTGCCACATA G---TCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(03) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(05) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACCC TC........ 400 U3L3(06)* 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(07) 351 CTGCCACATA GTTCTCAAAC CACTGTGGGC ACATACACC- TC........ 400 U3L3(09) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(10)* 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(11) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(12)* 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(13) 351 CTGCCACATA GTTCTCAAAC -ACTGGGGGC ACATACACC- TC........ 400 U3L3(14) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(15) 351 CTGC------ ---------- ---TGTGGGC ACATACACC- TC........ 400 U3L3(16) 351 CTGCCACATA GTTCTCAATC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(17) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(18) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(19) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(20) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(21) 351 C--------- -------GAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(22) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(24) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(25) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(26) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400 U3L3(28) 351 CTGCCACATA GTTCTCAAAC -ACTGTGGGC ACATACACC- TC........ 400

[0115] TABLE 4 10 20 30 40  50 U4L4 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(01) 1 ---------- ---------- ---------- -----ACCTC TCTCACTCCA  50 U4L4(02) 1 ---------- G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(03)* 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT GAAAAACCTC TCTCACTCCA  50 U4L4(04)* 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(05) 1 AGCTTGCAGA GGCAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(08) 1 ---------- ---------- ---------- ---------- ----------  50 U4L4(10) 1 ------CAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTGCA  50 U4L4(11) 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(13) 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTGACTCCA  50 U4L4(15)* 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(16)* 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(17) 1 ---------- ---------- ---------- ---------- ----------  50 U4L4(18)* 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(19) 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 U4L4(20) 1 AGCTTGCAGA G-CAGCTCTC GTAGCCATTT CAAAAACCTC TCTCACTCCA  50 60 70 80 90 100 U4L4 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(01) 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(02) 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC GAATCCTGTT 100 U4L4(03)* 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(04)* 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(05) 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(08) 51 ---------- ---------- ---------C CCAAAAGCGC CAATCCTGTT 100 U4L4(10) 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(11) 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAA-GCGC CAATCCTGTT 100 U4L4(13) 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAA-GCGC CAATCCTGTT 100 U4L4(15)* 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(16)* 51 TCTTTGGTCT TTGCTGAACA CTGCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(17) 51 ---------- ---------- ---------C CCAAAAGCGC CAATCCTGTT 100 U4L4(18)* 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(19) 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 U4L4(20) 51 TCTTTGGTCT TTGCTGAACA CTCCATGTAC CCAAAAGCGC CAATCCTGTT 100 110 120 130 140 150 U4L4 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(01) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTGATCTTGG 150 U4L4(02) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(03)* 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCGTGC TTCATCTTGG 150 U4L4(04)* 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(05) 101 TGCCATATCT CTGCCTTCTT CAG-TTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(08) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(10) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(11) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(13) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(15)* 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(16)* 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(17) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(18)* 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(19) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 U4L4(20) 101 TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC TTCATCTTGG 150 160 170 180 190 200 U4L4 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(01) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(02) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(03)* 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(04)* 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(05) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(08) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(10) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(11) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(13) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(15)* 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(16)* 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(17) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(18)* 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(19) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 U4L4(20) 151 CTAGCTCCCG CCTTGTGTGC TCATCATTCC GAAGATCCTT CTTATTCCCA 200 210 220 230 240 2 50 U4L4 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(01) 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(02) 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT GTGGGGTCCA 2 50 U4L4(03)* 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(04)* 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(05) 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTGCA 2 50 U4L4(08) 201 ACCAGGATGA TCGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(10) 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(11) 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(13) 201 ACCAGGATGA TGGGGACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(15)* 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(16)* 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(17) 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(18)* 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(19) 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 U4L4(20) 201 ACCAGGATGA TGGGCACGTT GGGACAGAAA TGCTTGACTT CTGGGGTCCA 2 50 260 270 280 290 300 U4L4 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(01) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(02) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(03)* 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(04)* 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(05) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(08) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGA GCTGTCGATG GAAAAACACA 300 U4L4(10) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(11) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(13) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(15)* 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(16)* 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(17) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGA GCTGTCGATG GAAAAACACA 300 U4L4(18) *251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(19) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 U4L4(20) 251 CTTTTCTGGG ATGTTTTCTA AACTATCAGG GCTGTCGATG GAAAAACACA 300 310 320 330 340 3 50 U4L4 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(01) 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(02) 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(03)* 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(04)* 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(05) 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(08) 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(10) 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(11) 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(13) 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(15)* 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(16)* 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(17) 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(18)* 301 TCAGTATAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(19) 301 TCAGTGTAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 U4L4(20) 301 TCAGTGTAAC ATCGGTATCT GGGTAGGAGA GGGGCCTCAG GCGATCATAA 3 50 360 370 380 390 400 U4L4 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(01) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(02) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(03)* 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(04)* 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(05) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(08) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(10) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(11) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(13) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(15)* 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(16)* 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(17) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(18)* 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(19) 351 TCTTCCTGCC CAGCTGTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 U4L4(20) 351 TCTTCCTGCC CAGCTCTGTC CCACAAAGCC AACTCTACCT GCTTTCCATC 400 410 420 430 440 4 50 U4L4 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(01) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(02) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(03)* 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(04)* 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(05) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(08) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(10) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(11) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(13) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(15)* 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(16)* 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(17) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(18)* 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(19) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 U4L4(20) 401 CACCTCGATA TCTGCCACAT AGTTCTCAAA CACTGTGGGC ACATACACCT 4 50 460 470 480 490 500 U4L4 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(01) 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(02) 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(03)* 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(04)* 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(05) 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(08) 451 GTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(10) 451 CTGGGAACTG GGCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(11) 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(13) 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(15)* 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(16)* 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(17) 451 GTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(18)* 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(19) 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 U4L4(20) 451 CTGGGAACTG GTCCTTGCTG AAGACTATTA ATAGGCATGT CTTTCCACAG 500 510 520 530 540 550 U4L4 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(01) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(02) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(03)* 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(04)* 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(05) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(08) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(10) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(11) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(13) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(15)* 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(16)* 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(17) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(18)* 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(19) 501 GCTACATCAC C......... .......... .......... .......... 550 U4L4(20) 501 GCTACATCAC C......... .......... .......... .......... 550

[0116] TABLE 5 10 20 30 40  50 U5L5 1 GGCTCGAGGT ACCGCGGCCG CTCACAAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(01) 1 ---------- ---------- ---------- ---------- ----------  50 U5L5(02) 1 ---------- ---------- ---------- ---------- ----------  50 U5L5(03) 1 ---------- ---------- ---------- ---------- ----------  50 U5L5(05) 1 ---------- ---------- -----AAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(06) 1 ---------- ---------- ---------- -AGGCAACCA GATTTTTTCT  50 U5L5(07) 1 ---------- ---------- ---------- ---------- ----------  50 U5L5(08) 1 GGCTCGAGGT ACCGCGGCCG CTCACAAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(09) 1 ---------- ---------- ---------- ---------- ----------  50 U5L5(10) 1 GGCTCGAGGT ACCGCGGCCG CTCACAAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(11) 1 GGCTCGAGGT ACCGCGGCCG CT-------- ---------- ----------  50 U5L5(12) 1 ---------- ---------- --------AC AAGGCAACCA GATTTTTTCT  50 U5L5(13)* 1 GGCTCGAGGT ACCGCGGCCG CTCACAAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(15) 1 GGCTCGAGGT ACCGCGGCCG CTCACAAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(16) 1 --------- ---------- ---------- ----CAACCA AATTTTTTCT  50 U5L5(17) 1 ----CCAGGT ACCGCGGCCG CTCACAAGAC AAGGCAACCA AATTTTTTCT  50 U5L5(18) 1 GGCTCGAGGT ACCGCGGCCG CTCACAAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(19) 1 -------GGT ACCGCGGCCG CTCACAAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(21) 1 ---------T ACCGCGGCCG CTCACAAGAC AAGGCAACCA GATTTTTTCT  50 U5L5(23) 1 ---------- ---------- ---------- ---------- ----------  50 60 70 80 90 100 U5L5 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(01) 51 ---------- ---------- -CAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(02) 51 -----CGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(03) 51 ---------- ---------A GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(05) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAAGCTCT 100 U5L5(06) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(07) 51 ---------- ---------- ---GCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(08) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(09) 51 ---------- ---------- GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(10) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(11) 51 ---------- --------GA GCAGCTCTCG TAGCGATTTC AAAAACCTCT 100 U5L5(12) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(13)* 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(15) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(16) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(17) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(18) 51 TCCCACGTCT AGCTTGCAGA GCAGGTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(19) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(21) 51 TCCCACGTCT AGCTTGCAGA GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 U5L5(23) 51 ---------- ---------A GCAGCTCTCG TAGCCATTTC AAAAACCTCT 100 110 120 130 140 150 U5L5 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(01) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(02) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(03) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(05) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(06) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(07) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(08) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(09) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(10) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(11) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(12) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(13)* 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(15) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(16) 101 CCCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(17) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(18) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(19) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(21) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 U5L5(23) 101 CTCACTCCAT CTTTGGTCTT TGCTGAACAC TCCATGTACC CAAAAGCGCC 150 160 170 180 190 200 U5L5 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(01) 151 AATCCTGTTT TGCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(02) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(03) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(05) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(06) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCGTGC 200 U5L5(07) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(08) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(09) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(10) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(11) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTGCTGC 200 U5L5(12) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(13)* 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(15) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(16) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTTAC CGGCTCCTGC 200 U5L5(17) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(18) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(19) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(21) 151 AATCCTGTTT -GCCATATCT CTGCCTTTTT CAGGTTTCAC CGGCTCCTGC 200 U5L5(23) 151 AATCCTGTTT -GCCATATCT CTGCCTTCTT CAGGTTTCAC CGGCTCCTGC 200 210 220 230 240 2 50 U5L5 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(01) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(02) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(03) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(05) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(06) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(07) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(08) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(09) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(10) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(11) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(12) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(13)* 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(15) 201 TTCATCTCGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(16) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(17) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(18) 201 CTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(19) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(21) 201 TTCATCTTGG -CTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 U5L5(23) 201 TTCATCTTGG ACTAGCTCCC GCCTTGTGTG CTCATCATTC CGAAGATCCT 2 50 260 270 280 290 300 U5L5 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(01) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(02) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(03) 251 TCTTATTCCC AACCCGGATG GTGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(05) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(06) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(07) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(08) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(09) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(10) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(11) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(12) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(13)* 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(15) 251 TCTTATTCCC AACCCGGATG ATAGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(16) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(17) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(18) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(19) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(21) 251 TCTTATTCCC AACCCGGATG ATGGGCACGT TGGGACAGAA ATGCTTGACT 300 U5L5(23) 251 TCTTATTCCC AACCCGGATG GTGGGCACGT TGGGACAGAA ATGCTTGACT 300 310 320 330 340 3 50 U5L5 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(01) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(02) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(03) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(05) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(06) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(07) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(08) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(09) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(10) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(11) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(12) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(13)* 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(15) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(16) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(17) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(18) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(19) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 U5L5(21) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCGG GGCTGTCGAT 3 50 U5L5(23) 301 TCTGGGGTCC ACTTTTCTGG GATGTTTTCT AAACTATCAG GGCTGTCGAT 3 50 360 370 380 390 400 U5L5 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(01) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(02) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(03) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(05) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(06) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(07) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(08) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCGTCA 400 U5L5(09) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCGTCA 400 U5L5(10) 351 GGAAAAACAC ATGAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(11) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(12) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(13)* 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(15) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGGCTCA 400 U5L5(15) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(17) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(18) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(19) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(21) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 U5L5(23) 351 GGAAAAACAC ATCAGTATAA CATCGGTATC TGGGTAGGAG AGGGGCCTCA 400 410 420 430 440 4 50 U5L5 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG TCCAACTCTAC 4 50 U5L5(01) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(02) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(03) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(05) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(06) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(07) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(08) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(09) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(10) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(11) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(12) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(13)* 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(15) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(16) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(17) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(18) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(19) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(21) 401 GGCGATCATA ATCTTCC-TG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 U5L5(23) 401 GGCGATCATA ATCTTCCATG CCCAGCTGTG TCCCACAAAG CCAACTCTAC 4 50 460 470 480 490 500 U5L5 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(01) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(02) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(03) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTTTCA AACACTGTGG 500 U5L5(05) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(06) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(07) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(08) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(09) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(10) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(11) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(12) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(13)* 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(15) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(16) 451 CTGCTTTCCA TCCACCTCGA TATTTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(17) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(18) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(19) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(21) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTCTCA AACACTGTGG 500 U5L5(23) 451 CTGCTTTCCA TCCACCTCGA TATCTGCCAC ATAGTTTTCA AACACTGTGG 500 510 520 530 540 550 U5L5 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(01) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(02) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAGTAGGCAT 550 U5L5(03) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(05) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(06) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(07) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(08) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(09) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(10) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(11) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(12) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TANTAGGCAT 550 U5L5(13)* 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(15) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(16) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(17) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(18) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(19) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(21) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 U5L5(23) 501 GCACATACAC CTCTGGGAAC TGGTCCTTGC TGAAGACTAT TAATAGGCAT 550 560 570 580 590 600 U5L5 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(01) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(02) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(03) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(05) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(06) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(07) 551 GTCTT-CCAC AGGCTACATC ACCAACAATC ACCAGTT--- ---------- 600 U5L5(08) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTGT TCCGGTTCAG 600 U5L5(09) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(10) 551 GTCTTTCCAC AGGCTACATC ACCAACAATT ACCAGTTTCT TCCGGTTCAG 600 U5L5(11) 551 GTCTTTCCAC AGGCTACATC A--------- ---------- ---------- 600 U5L5(12) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(13)* 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(15) 551 GTCTTTCCAC AGGC------ ---------- ---------- ---------- 600 U5L5(16) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTT--- ---------- 600 U5L5(17) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGG----- 600 U5L5(18) 551 GTCTTTCCAC AGGCTACA-- ---------- ---------- ---------- 600 U5L5(19) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TC-------- 600 U5L5(21) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 U5L5(23) 551 GTCTTTCCAC AGGCTACATC ACCAACAATC ACCAGTTTCT TCCGGTTCAG 600 610 620 630 640 650 U5L5 601 GTCCTCCTCG GAGATCAGCT TCTGCT-CCA TGGG...... .......... 650 U5L5(01) 601 GTCCTCCTTG GAGATCAGCT TCTGCT-CCA TGGG...... .......... 650 U5L5(02) 601 GTC------- ---------- ---------- ----...... .......... 650 U5L5(03) 601 GTCCTCCTCG GAGATCAGCT TCTGCTTCCA TGGG...... .......... 650 U5L5(05) 601 GTCCT----- ---------- ---------- ----...... .......... 650 U5L5(06) 601 GTCCTCCT-- ---------- ---------- ----...... .......... 650 U5L5(07) 601 ---------- ---------- ---------- ----...... .......... 650 U5L5(08) 601 GT-------- ---------- ---------- ----...... .......... 650 U5L5(09) 601 GTCCTCCTCG GAGATCAGCT TCTGCT-CCA TGGG...... .......... 650 U5L5(10) 601 GTCCTCCTCG GAGATCAGCT TC........ ----...... .......... 650 U5L5(11) 601 ---------- ---------- ---------- ----...... .......... 650 U5L5(12) 601 GTCCTCCTCG GAGATCAGCT TCTGCT-CCA TGGG....... .......... 650 U5L5(13)* 601 GTCCTCCTCG GAGATCAGCT TCTGCT-CCA TGGG....... .......... 650 U5L5(15) 601 ---------- ---------- ---------- ----...... .......... 650 U5L5(16) 601 ---------- ---------- ---------- ----...... .......... 650 U5L5(17) 601 ---------- ---------- ---------- ----...... .......... 650 U5L5(18) 601 ---------- ---------- ---------- ----...... .......... 650 U5L5(19) 601 ---------- ---------- ---------- ----...... .......... 650 U5L5(21) 601 GTCCTCCTCG GAGATCAGCT TCTGCT-CCA TGGG...... .......... 650 U5L5(23) 601 GTCCTCCTCG GAGATCAGCT TCTGCTTCCA TGGG...... .......... 650

Example 2

[0117] In order to synthesize DNA having the nucleotide sequence shown in SEQ ID NO: 12 (target sequence), oligomers having a length of 104 nucleotides, 1a, 1b, 2a, 2b, 3a, 3b, 4a and 4b were synthesized, each of which had each of the nucleotide sequences shown in SEQ ID NOS: 13-20. These oligomers correspond to Aa1, Aa2, Ab1, Ab2, Ba1, Ba2, Bb1 and Bb2, respectively, which are shown in the frame in FIG. 2.

[0118] Reaction mixtures having each of the compositions shown in Table 6 were prepared in four of tubes (Tube 1 to Tube 4), and PCR was performed by leaving at 94° C. for 1 minute, and repeating 30 times a cycle of reactions at 94° C. for 1 minute and 68° C. for 30 seconds. In this stage, a fragment of 179 bp is synthesized. TABLE 6 Composition of reaction mixture (unit: μl) Tube Tube Tube Tube 1 2 3 4 10 × Pyrobest PCR 10 10 10 10 reaction buffer 2.5 mM dNTP mixture 2 2 2 2 Primer a (10 pmol/μl) 4(1a) 1(2a) 4(3a) 1(4a) Primer b (10 pmol/μl) 1(1b) 4(2b) 1(3b) 4(4b) Pyrobest DNA 0.5 0.5 0.5 0.5 polymerase (5 unit/μl) Water 82.5 82.5 82.5 82.5 Total 100 100 100 100

[0119] After completion of the reaction, portions of 80 μl and 20 μl were taken out from Tube 1 and Tube 2, respectively, and mixed in a new tube (Tube 5). Similarly, portions of 20 μl and 80 μl were taken out from Tube 3 and Tube 4, respectively, and mixed in a new tube (Tube 6). The mixtures in Tube 5 and Tube 6 were allowed to react under the same conditions as described above. In this stage, a fragment of 326 bp is synthesized.

[0120] After completion of the reaction, portions of 50 μl and 50 μl were taken out from Tube 5 and Tube 6, respectively, and mixed in a new tube (Tube 7). The mixture in Tube 7 was allowed to react under the same conditions as described above. In this stage, a fragment of 612 bp is synthesized.

[0121] Then, the target fragment was amplified. Based on the sequences of the both ends of the target sequence, oligomers of 20-mer having the nucleotide sequences shown in SEQ ID NOS: 21 and 22, respectively, were prepared. These oligomers were used as primers (Upper and Lower), and a reaction mixture having the composition shown in Table 7 mentioned below was prepared (Tube 8). PCR was performed by leaving at 98° C. for 1 minute, and repeating 30 times a cycle of reactions at 98° C. for 30 seconds and 68° C. for 90 seconds. TABLE 7 Composition of reaction mixture (unit: μl) 10 × Pyrobest PCR reaction buffer 10 Reaction product of Tube 7 4 2.5 mM dNTP mixture 2 Primer Upper (10 pmol/μl) 5 Primer Lower (10 pmol/μl) 5 Pyrobest DNA polymerase (5 unit/μl) 0.5 Water 73.5 Total 100

[0122] After the reaction described above, 5 μl each of the reaction products of Tube 1 to Tube 8 were subjected to agarose gel electrophoresis to confirm the amplification (FIG. 3). Since the amplification was confirmed, a target length of the reaction product obtained in Tube 8 was collected from the electrophoresis gel, and directly cloned by using PGEM-T Vector System (Promega).

[0123] Fifteen of the obtained clones were sequenced. As a result, one clone having the target sequence was obtained.

1 22 1 630 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 1 ggctcgaggt accgcggccg ctcacaagac aaggcaacca gattttttct tcccacgtct 60 agcttgcaga gcagctctcg tagccatttc aaaaacctct ctcactccat ctttggtctt 120 tgctgaacac tccatgtacc caaaagcgcc aatcctgttt gccatatctc tgccttcttc 180 aggtttcacc ggctcctgct tcatcttggc tagctcccgc cttgtgtgct catcattccg 240 aagatccttc ttattcccaa cccggatgat gggcacgttg ggacagaaat gcttgacttc 300 tggggtccac ttttctggga tgttttctaa actatcaggg ctgtcgatgg aaaaacacat 360 cagtataaca tcggtatctg ggtaggagag gggcctcagg cgatcataat cttcctgccc 420 agctgtgtcc cacaaagcca actctacctg ctttccatcc acctcgatat ctgccacata 480 gttctcaaac actgtgggca catacacctc tgggaactgg tccttgctga agactattaa 540 taggcatgtc tttccacagg ctacatcacc aacaatcacc agtttcttcc ggttcaggtc 600 ctcctcggag atcagcttct gctccatggg 630 2 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 2 aagatccttc ttattcccaa ccaggatgat gggcacgttg ggacagaaat gcttgacttc 60 tggggtccac ttttctggga tgttttctaa 90 3 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 3 aggtttcacc ggctcctgct tcatcttggc tagctcccgc cttgtgtgct catcattccg 60 aagatccttc ttattcccaa ccaggatgat 90 4 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 4 tgctgaacac tccatgtacc caaaagcgcc aatcctgttt gccatatctc tgccttcttc 60 aggtttcacc ggctcctgct tcatcttggc 90 5 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 5 agcttgcaga gcagctctcg tagccatttc aaaaacctct ctcactccat ctttggtctt 60 tgctgaacac tccatgtacc caaaagcgcc 90 6 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 6 ggctcgaggt accgcggccg ctcacaagac aaggcaacca gattttttct tcccacgtct 60 agcttgcaga gcagctctcg tagccatttc 90 7 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 7 ctctcctacc cagataccga tgttatactg atgtgttttt ccatcgacag ccctgatagt 60 ttagaaaaca tcccagaaaa gtggacccca 90 8 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 8 caggtagagt tggctttgtg ggacacagct gggcaggaag attatgatcg cctgaggccc 60 ctctcctacc cagataccga tgttatactg 90 9 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 9 gaggtgtatg tgcccacagt gtttgagaac tatgtggcag atatcgaggt ggatggaaag 60 caggtagagt tggctttgtg ggacacagct 90 10 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 10 ggtgatgtag cctgtggaaa gacatgccta ttaatagtct tcagcaagga ccagttccca 60 gaggtgtatg tgcccacagt gtttgagaac 90 11 90 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 11 cccatggagc agaagctgat ctccgaggag gacctgaacc ggaagaaact ggtgattgtt 60 ggtgatgtag cctgtggaaa gacatgccta 90 12 612 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 12 attaagaaac atgtagaatt aggttttcca ccaacaagct ttgtacccct tgatgtaaag 60 aaccgtaaac aacacgttgc tttgcttatg aattcttctg gatctactgg tttacctaaa 120 ggtgtacgaa ttacccacga aggtgcagtt acaagattct cacacgctaa ggatccaatt 180 tacggaaacc aagtttcacc tggtactgct attttaactg tcgttccgtt ccatcatgga 240 tttggaatgt ttaccacttt aggatacttt gcttgcggat accgtgttgt aatgttaaca 300 aaatttgatg aagaactgtt tttgagaact ttgcaagatt ataagtgtac cagtgtgatt 360 cttgtaccaa ccttatttgc tattctcaac aagagtgaat tgatcgataa gttcgattta 420 tctaatctaa ctgaaattgc ttctggtgga gctcctttgg caaaagaagt tggcgaagca 480 gtcgctagaa gatttaatct acccggtgtc cgtcagggtt acggattaac agaaacaaca 540 tctgcattta ttattactcc agaaggtgat gataaacctg gagcatctgg aaaagtggta 600 cccttattca aa 612 13 104 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 13 attaagaaac atgtagaatt aggttttcca ccaacaagct ttgtacccct tgatgtaaag 60 aaccgtaaac aacacgttgc tttgcttatg aattcttctg gatc 104 14 104 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 14 ttggatcctt agcgtgtgag aatcttgtaa ctgcaccttc gtgggtaatt cgtacacctt 60 taggtaaacc agtagatcca gaagaattca taagcaaagc aacg 104 15 104 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 15 ttacaagatt ctcacacgct aaggatccaa tttacggaaa ccaagtttca cctggtactg 60 ctattttaac tgtcgttccg ttccatcatg gatttggaat gttt 104 16 104 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 16 ctcaaaaaca gttcttcatc aaattttgtt aacattacaa cacggtatcc gcaagcaaag 60 tatcctaaag tggtaaacat tccaaatcca tgatggaacg gaac 104 17 104 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 17 ttgtaatgtt aacaaaattt gatgaagaac tgtttttgag aactttgcaa gattataagt 60 gtaccagtgt gattcttgta ccaaccttat ttgctattct caac 104 18 104 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 18 tttgccaaag gagctccacc agaagcaatt tcagttagat tagataaatc gaacttatcg 60 atcaattcac tcttgttgag aatagcaaat aaggttggta caag 104 19 104 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 19 aattgcttct ggtggagctc ctttggcaaa agaagttggc gaagcagtcg ctagaagatt 60 taatctaccc ggtgtccgtc agggttacgg attaacagaa acaa 104 20 104 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 20 tttgaataag ggtaccactt ttccagatgc tccaggttta tcatcacctt ctggagtaat 60 aataaatgca gatgttgttt ctgttaatcc gtaaccctga cgga 104 21 20 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 21 attaagaaac atgtagaatt 20 22 20 DNA Artificial Sequence Description of Artificial Sequence synthetic DNA 22 tttgaataag ggtaccactt 20 

What is claimed is:
 1. A method for producing DNA, which comprises the following steps (1) to (4): (1) dividing a target sequence which is a nucleotide sequence of DNA to be synthesized into 2N wherein N is a positive integer, of sections, designing partial sequences each containing a nucleotide sequence of each section and a part of a nucleotide sequence of an adjacent section or parts of nucleotide sequences of adjacent sections, wherein the part or parts have such a length that the nucleotide sequence of the each part can specifically make base-pairing with a nucleotide sequence complementary thereto, and preparing oligomers each having each of the 1st to Nth partial sequences from the 5′ end of the target sequence and oligomers each having a nucleotide sequence complementary to each of the (N+1)th to (2N)th partial sequences from the 5′ end of the target sequence, (2) performing PCR by using an oligomer having the Nth partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (N+1)th partial sequence from the 5′ end of the target sequence under such a condition that these oligomers should act as primers and templates, (3) sequencing synthesized DNAs and selecting DNA having a nucleotide sequence containing the Nth and (N+1)th partial sequences from the 5′ end of the target sequence, and (4) repeating the following steps (4a) and (4b) for J wherein J is an integer, to be from 1 to N−1: (4a) performing PCR by using the selected DNA, an oligomer having the (N−J)th partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (N+1+J)th partial sequence from the 5′ end of the target sequence under such a condition that the DNA and oligomers should act as primers and templates, and (4b) sequencing synthesized DNAs and selecting DNA having a nucleotide sequence containing the (N−J)th to (N+1+J)th partial sequences.
 2. A method for producing DNA, which comprises the following steps (1) to (4): (1) dividing a target sequence which is a nucleotide sequence of DNA to be synthesized into 2^(n) wherein n is a positive integer, of sections, designing partial sequences each containing a nucleotide sequence of each section and a part of a nucleotide sequence of an adjacent section or parts of nucleotide sequences of adjacent sections, wherein the part or parts have such a length that the nucleotide sequence of each part can specifically make base-pairing with a nucleotide sequence complementary thereto, and preparing oligomers each having each of (odd number)th partial sequences from the 5′ end of the target sequence and oligomers each having a nucleotide sequence complementary to each of (even number)th partial sequences from the 5′ end of the target sequence, (2) repeating the following step (2a) for j wherein j is an integer, to be from 1 to 2^(n−1) to produce 2^(n−1) of reaction products, (2a) performing PCR by using an oligomer having the (2j−1)th partial sequence from the 5′ end of the target sequence and an oligomer having a nucleotide sequence complementary to the (2j)th partial sequence from the 5′ end of the target sequence under such a condition that these oligomers should act as primers and templates, (3) repeating the following step (3a) for i wherein i is an integer, to be from 2 to n: (3a) repeating the following step (3ai) for k wherein k is an integer, to be from 1 to 2^(n−i) to produce 2^(n−i) of reaction products, (3ai) mixing a reaction mixture containing DNA having the (2^(i)·(k−1)+1)th to (2^(i)·(k−½)th partial sequences from the 5′ end of the target sequence and a reaction mixture containing DNA having a sequence complementary to the (2^(i)·(k−½)1)th to 2^(i)·k)th partial sequences from the 5′ end of the target sequence and performing PCR under such a condition that DNAs contained in the reaction mixtures should act as primers and templates, and (4) separating DNAs having a length expected from the target sequence from the reaction mixture, and sequencing the separated double strand DNAs to select a double strand DNA having the target sequence.
 3. The method according to claim 2, wherein, in the steps (2a) and (3ai), a ratio of the oligomers added to the reaction mixture or a ratio of the reaction mixtures to be mixed is adjusted so that a single strand DNA required for a subsequent step should be synthesized in an amount larger than that of the other single strand DNA. 